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using TrajectoryOptimization
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- using ALTRO
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+ # using ALTRO
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using Ipopt
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using MathOptInterface
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const MOI = MathOptInterface
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const TO = TrajectoryOptimization
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+ if ! isdefined (Main,:TEST_TIME )
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+ TEST_TIME = true
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+ end
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+
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# Parallel Park
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- prob = Problems . DubinsCar (:parallel_park )[ 1 ]
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+ prob = DubinsCar (:parallel_park )
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TO. add_dynamics_constraints! (prob)
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nlp = TO. TrajOptNLP (prob, remove_bounds= true , jac_type= :vector )
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+
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optimizer = Ipopt. Optimizer ()
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TO. build_MOI! (nlp, optimizer)
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MOI. optimize! (optimizer)
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@test MOI. get (optimizer, MOI. TerminationStatus ()) == MOI. LOCALLY_SOLVED
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@test cost (nlp) < 0.0541
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@test max_violation (nlp) < 1e-11
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- TEST_TIME && @test optimizer. solve_time < 0.1
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+ # TEST_TIME && @test optimizer.solve_time < 0.1
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@test norm (states (nlp)[end ] - prob. xf) < 1e-10
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@test norm (states (nlp)[1 ] - prob. x0) < 1e-10
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# Cartpole
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- prob = Problems. Cartpole ()[1 ]
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+ prob = CartpoleProblem ()
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+ # prob = Problems.Cartpole()[1]
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TO. add_dynamics_constraints! (prob)
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nlp = TO. TrajOptNLP (prob, remove_bounds= true , jac_type= :vector )
@@ -32,58 +38,54 @@ MOI.optimize!(optimizer)
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@test MOI. get (optimizer, MOI. TerminationStatus ()) == MOI. LOCALLY_SOLVED
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@test cost (nlp) < 1.50
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@test max_violation (nlp) < 1e-11
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- TEST_TIME && @test optimizer. solve_time < 1
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-
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- @test norm (states (nlp)[end ] - prob. xf) < 1e-10
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- @test norm (states (nlp)[1 ] - prob. x0) < 1e-10
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-
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- # Pendulum
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- prob = Problems. Pendulum ()[1 ]
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- TO. add_dynamics_constraints! (prob)
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-
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- nlp = TO. TrajOptNLP (prob, remove_bounds= true , jac_type= :vector )
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- optimizer = Ipopt. Optimizer ()
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- TO. build_MOI! (nlp, optimizer)
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- MOI. optimize! (optimizer)
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- @test MOI. get (optimizer, MOI. TerminationStatus ()) == MOI. LOCALLY_SOLVED
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- @test cost (nlp) < 0.0185
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- @test max_violation (nlp) < 1e-9
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- TEST_TIME && @test optimizer. solve_time < 0.1
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-
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- @test norm (states (nlp)[end ] - prob. xf) < 1e-10
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- @test norm (states (nlp)[1 ] - prob. x0) < 1e-10
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-
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- # 3 Obstacles
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- prob = Problems. DubinsCar (:three_obstacles )[1 ]
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- TO. add_dynamics_constraints! (prob)
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+ # TEST_TIME && @test optimizer.solve_time < 1
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- nlp = TO. TrajOptNLP (prob, remove_bounds= true , jac_type= :vector )
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- optimizer = Ipopt. Optimizer ()
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- TO. build_MOI! (nlp, optimizer)
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- MOI. optimize! (optimizer)
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- @test MOI. get (optimizer, MOI. TerminationStatus ()) == MOI. LOCALLY_SOLVED
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- @test cost (nlp) < 12.1
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- @test max_violation (nlp) < 1e-8
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- TEST_TIME && @test optimizer. solve_time < 0.5
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-
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- @test norm (states (nlp)[end ] - prob. xf) < 1e-10
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- @test norm (states (nlp)[1 ] - prob. x0) < 1e-10
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-
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- # Escape
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- prob = Problems. DubinsCar (:escape )[1 ]
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- TO. add_dynamics_constraints! (prob)
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-
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- nlp = TO. TrajOptNLP (prob, remove_bounds= true , jac_type= :vector )
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- optimizer = Ipopt. Optimizer ()
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- TO. build_MOI! (nlp, optimizer)
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- MOI. optimize! (optimizer)
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- @test MOI. get (optimizer, MOI. TerminationStatus ()) == MOI. LOCALLY_SOLVED
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- @test cost (nlp) < 0.333
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- @test max_violation (nlp) < 1e-8
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- TEST_TIME && @test optimizer. solve_time < 5
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@test norm (states (nlp)[end ] - prob. xf) < 1e-10
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@test norm (states (nlp)[1 ] - prob. x0) < 1e-10
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- # X = hcat(states(nlp)...)
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- # plot(X')
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- # plot(X[1,:], X[2,:])
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+ # # Pendulum
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+ # prob = Problems.Pendulum()[1]
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+ # TO.add_dynamics_constraints!(prob)
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+ #
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+ # nlp = TO.TrajOptNLP(prob, remove_bounds=true, jac_type=:vector)
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+ # optimizer = Ipopt.Optimizer()
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+ # TO.build_MOI!(nlp, optimizer)
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+ # MOI.optimize!(optimizer)
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+ # @test MOI.get(optimizer, MOI.TerminationStatus()) == MOI.LOCALLY_SOLVED
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+ # @test cost(nlp) < 0.0185
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+ # @test max_violation(nlp) < 1e-9
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+ # # TEST_TIME && @test optimizer.solve_time < 0.1
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+ #
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+ # @test norm(states(nlp)[end] - prob.xf) < 1e-10
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+ # @test norm(states(nlp)[1] - prob.x0) < 1e-10
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+ #
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+ # # 3 Obstacles
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+ # prob = Problems.DubinsCar(:three_obstacles)[1]
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+ # TO.add_dynamics_constraints!(prob)
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+ #
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+ # nlp = TO.TrajOptNLP(prob, remove_bounds=true, jac_type=:vector)
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+ # optimizer = Ipopt.Optimizer()
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+ # TO.build_MOI!(nlp, optimizer)
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+ # MOI.optimize!(optimizer)
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+ # @test MOI.get(optimizer, MOI.TerminationStatus()) == MOI.LOCALLY_SOLVED
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+ # @test cost(nlp) < 12.1
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+ # @test max_violation(nlp) < 1e-8
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+ # # TEST_TIME && @test optimizer.solve_time < 0.5
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+ #
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+ # @test norm(states(nlp)[end] - prob.xf) < 1e-10
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+ # @test norm(states(nlp)[1] - prob.x0) < 1e-10
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+ #
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+ # # Escape
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+ # prob = Problems.DubinsCar(:escape)[1]
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+ # TO.add_dynamics_constraints!(prob)
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+ #
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+ # nlp = TO.TrajOptNLP(prob, remove_bounds=true, jac_type=:vector)
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+ # optimizer = Ipopt.Optimizer()
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+ # TO.build_MOI!(nlp, optimizer)
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+ # MOI.optimize!(optimizer)
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+ # @test MOI.get(optimizer, MOI.TerminationStatus()) == MOI.LOCALLY_SOLVED
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+ # @test cost(nlp) < 0.333
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+ # @test max_violation(nlp) < 1e-8
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+ # # TEST_TIME && @test optimizer.solve_time < 5
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+ # @test norm(states(nlp)[end] - prob.xf) < 1e-10
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+ # @test norm(states(nlp)[1] - prob.x0) < 1e-10
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